In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singularity without having to invoke special boundary conditions at the singularity or introduce ad-hoc elements such as unphysical matter. The same effects are shown to lead to a resolution of the Schwarzschild singularity. The resulting quantum extension of space-time is likely to have significant implications to the black hole evaporation process. Similarities and differences with the situation in quantum geometrodynamics are pointed out
Quantum gravity is expected to be necessary in order to understand situations in which classical gen...
Quantum gravity is expected to be necessary in order to understand situations where classical genera...
In this paper, we argue that once quantum gravitational effects change the classical geometry of a b...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
We apply techniques recently introduced in quantum cosmology to the Schwarzschild metric inside the ...
Black Holes have always played a central role in investigations of quantum gravity. This includes bo...
General relativity successfully describes space–times at scales that we can observe and probe today,...
General relativity successfully describes space–times at scales that we can observe and probe today,...
General relativity successfully describes space–times at scales that we can observe and probe today,...
Quantum gravity is expected to be necessary in order to understand situations in which classical gen...
Quantum gravity is expected to be necessary in order to understand situations where classical genera...
In this paper, we argue that once quantum gravitational effects change the classical geometry of a b...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
In homogeneous cosmologies, quantum geometry effects lead to a resolution of the classical singulari...
We apply techniques recently introduced in quantum cosmology to the Schwarzschild metric inside the ...
Black Holes have always played a central role in investigations of quantum gravity. This includes bo...
General relativity successfully describes space–times at scales that we can observe and probe today,...
General relativity successfully describes space–times at scales that we can observe and probe today,...
General relativity successfully describes space–times at scales that we can observe and probe today,...
Quantum gravity is expected to be necessary in order to understand situations in which classical gen...
Quantum gravity is expected to be necessary in order to understand situations where classical genera...
In this paper, we argue that once quantum gravitational effects change the classical geometry of a b...